SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTS

Crop improvement efforts have benefited greatly from advances in available data, computing technology and methods for targeting genotypes to environments. These advances support the analysis of genotype by environment interactions to understand how well a genotype adapts to environmental conditions...

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Main Authors: Glenn eHyman, Dave eHodson, Peter eJones
Format: Article
Language:English
Published: Frontiers Media S.A. 2013-03-01
Series:Frontiers in Physiology
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fphys.2013.00040/full
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author Glenn eHyman
Dave eHodson
Peter eJones
author_facet Glenn eHyman
Dave eHodson
Peter eJones
author_sort Glenn eHyman
collection DOAJ
description Crop improvement efforts have benefited greatly from advances in available data, computing technology and methods for targeting genotypes to environments. These advances support the analysis of genotype by environment interactions to understand how well a genotype adapts to environmental conditions. This paper reviews the use of spatial analysis to support crop improvement research aimed at matching genotypes to their most appropriate environmental niches. Better data sets are now available on soils, weather and climate, elevation, vegetation, crop distribution and local conditions where genotypes are tested in experimental trial sites. The improved data are now combined with spatial analysis methods to compare environmental conditions across sites, create agro-ecological region maps and assess environment change. Climate, elevation and vegetation data sets are now widely available, supporting analyses that were much more difficult even five or ten years ago. While detailed soil data for many parts of the world remains difficult to acquire for crop improvement studies, new advances in digital soil mapping are likely to improve our capacity. Site analysis and matching and regional targeting methods have advanced in parallel to data and technology improvements. All these developments have increased our capacity to link genotype to phenotype and point to a vast potential to improve crop adaptation efforts.
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spelling doaj.art-616360ffff2a4eb79ae1b940243e20392022-12-22T00:25:20ZengFrontiers Media S.A.Frontiers in Physiology1664-042X2013-03-01410.3389/fphys.2013.0004030705SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTSGlenn eHyman0Dave eHodson1Peter eJones2International Center for Tropical AgricultureInternational Maize and Wheat Improvement Center WAEN ASSOCIATESCrop improvement efforts have benefited greatly from advances in available data, computing technology and methods for targeting genotypes to environments. These advances support the analysis of genotype by environment interactions to understand how well a genotype adapts to environmental conditions. This paper reviews the use of spatial analysis to support crop improvement research aimed at matching genotypes to their most appropriate environmental niches. Better data sets are now available on soils, weather and climate, elevation, vegetation, crop distribution and local conditions where genotypes are tested in experimental trial sites. The improved data are now combined with spatial analysis methods to compare environmental conditions across sites, create agro-ecological region maps and assess environment change. Climate, elevation and vegetation data sets are now widely available, supporting analyses that were much more difficult even five or ten years ago. While detailed soil data for many parts of the world remains difficult to acquire for crop improvement studies, new advances in digital soil mapping are likely to improve our capacity. Site analysis and matching and regional targeting methods have advanced in parallel to data and technology improvements. All these developments have increased our capacity to link genotype to phenotype and point to a vast potential to improve crop adaptation efforts.http://journal.frontiersin.org/Journal/10.3389/fphys.2013.00040/fullphenotypegenotype-by-environment interactiongeographic targetingspatial analysisagroecology
spellingShingle Glenn eHyman
Dave eHodson
Peter eJones
SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTS
Frontiers in Physiology
phenotype
genotype-by-environment interaction
geographic targeting
spatial analysis
agroecology
title SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTS
title_full SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTS
title_fullStr SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTS
title_full_unstemmed SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTS
title_short SPATIAL ANALYSIS TO SUPPORT GEOGRAPHIC TARGETING OF GENOTYPES TO ENVIRONMENTS
title_sort spatial analysis to support geographic targeting of genotypes to environments
topic phenotype
genotype-by-environment interaction
geographic targeting
spatial analysis
agroecology
url http://journal.frontiersin.org/Journal/10.3389/fphys.2013.00040/full
work_keys_str_mv AT glennehyman spatialanalysistosupportgeographictargetingofgenotypestoenvironments
AT daveehodson spatialanalysistosupportgeographictargetingofgenotypestoenvironments
AT peterejones spatialanalysistosupportgeographictargetingofgenotypestoenvironments